We have 2 open postdoctoral research positions (2023)!
Project 1: Granular Hydrogels for Regenerative Engineering (NIH R01 and R56)
The applicants must have a profound background in the following areas:
(a) Biomaterials (hydrogel design, synthesis, processing, and characterization)
(b) In vitro techniques (2D and 3D cell culture models, cytotoxicity assays, angiogenesis assays, axonogenesis, 3D imaging, immunohistochemistry, immunoimaging, and protein and gene expression analyses)
(c) In vivo models (small animal models, e.g., subq and wound healing, in vivo imaging, and tissue evaluation)
Please apply via LINK1 and forward your application package to Dr. Sheikhi via email.
Project 2: Biomaterials for Antibiotic Capture
The applicants must have a profound background in the following areas:
(a) Design, synthesis, and characterization of antibiotic antagonists
(b) In vitro mammalian and/or bacterial cell techniques (e.g., 2D and 3D cell culture models, cytotoxicity assays, gut-on-a-chip models, 3D imaging, immunohistochemistry, immunoimaging, and protein and gene expression analyses)
Please apply via LINK2 and forward your application package to Dr. Sheikhi by email.
Amir will be the Technical Program Chair of 2023 International Conference on Nanotechnology for Renewable Materials, June 12-16, Vancouver, BC, Canada
Amir will be a Keynote Speaker at the National Graduate Research Polymer Conference 2023
June 29th – July 1st, 2023
University of Michigan, Ann Arbor, MI
June 29th – July 1st, 2023
University of Michigan, Ann Arbor, MI
2023 AIChE Annual Meeting
Amir will be chairing several sessions at the 2023 AIChE Annual Meeting!
More to come...!
1) NIH R56 (1R56EB032672, NIBIB, $800 k) 2) NIH R01 (R01NS121150, NINDS, $2.29 M)
How Can Bio-Based Soft Materials and Biomaterials Impact Society?
Soaring population growth, imbalance supplies and demands, shortage of ready-to-use remedies, and urbanization have introduced unprecedented challenges to satisfying the world’s essential needs for water, healthcare, food, and energy. Designing new material platforms inspired by the following questions may take us one step closer to finding solutions to these needs:
1) How can natural bioproducts be micro-/nanoengineered to overcome the persistent bottlenecks of current synthetic materials?
2) How can the sophisticated structure-property relationships in nature be mimicked to address everyday life challenges?
Our Contributions
Our team endeavors are geared towards addressing some of the quintessential challenges of the 21st century in biomedicine and the environment by designing novel soft material platforms (e.g., hydrogels and colloidal systems) via micro- and nanoengineering techniques. In 2019, Dr. Amir Sheikhi founded the Bio-Soft Materials Laboratory (B-SMaL) at Penn State Chemical Engineering to develop transformative and/or translational bio-derived soft materials and biomaterials that can set the stage for the adoption of affordable, widespread technologies with immediate benefits for humans and ecosystems.